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Copy pathMINEOStoDSMmodels.f90
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MINEOStoDSMmodels.f90
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program modelConverter
! Nobuaki Fuji for DSM Kernel
! July 2016, Institut de Physique du Globe de Paris
use parameters
implicit none
integer :: i,j,k,kmax,iirlength
double precision, allocatable, dimension (:,:) :: a,at,ata,atainv
double precision, allocatable, dimension (:) :: tmparray,tmparray2
double precision :: rnormalised,coef
call getarg(1,model1d)
model1d = trim(model1d)
call getarg(2,psvmodel)
psvmodel = trim(psvmodel)
call getarg(3,shmodel)
psvmodel = trim(shmodel)
call readMINEOScard
nzone = 1
do i = 1,nrmod-1
if(rmod(i).eq.rmod(i+1)) nzone = nzone +1
enddo
allocate(vrmin(1:nzone),vrmax(1:nzone),irmin(1:nzone),irmax(1:nzone),irlength(1:nzone),qmuD(1:nzone),qkappaD(1:nzone))
allocate(rrhoD(1:4,1:nzone),vpvD(1:4,1:nzone),vphD(1:4,1:nzone),vsvD(1:4,1:nzone),vshD(1:4,1:nzone),etaD(1:4,1:nzone))
j = 1
vrmin(j) = rmod(1)
irmin(j) = 1
do i = 2,nrmod-1
if(rmod(i).eq.rmod(i+1)) then
irmax(j) = i
vrmax(j) = rmod(i)
! NF in DSM, qmu and qkappa are constant through one zone
qmuD(j) = qm(i)
qkappaD(j) = qk(i)
etaD(1,j) = 1.d0
! NF can of course change this easily though ...
j = j+1
irmin(j) = i+1
vrmin(j) = rmod(i+1)
endif
enddo
j = nzone
vrmax(j) = rmod(nrmod)
irmax(j) = nrmod
qmuD(j)=qm(nrmod)
qkappaD(j)=qk(nrmod)
etaD(1,j)=1.d0
do j = 1,nzone
irlength(j) = irmax(j)-irmin(j)+1
enddo
rrhoD = 0.d0
vpvD = 0.d0
vphD = 0.d0
vsvD = 0.d0
vshD = 0.d0
!etaD = 0.d0
print *, "ca marche"
do j = 1,nzone
print *, vrmin(j), vrmax(j)
!print *,j,irmin(j),irmax(j),vrmin(j),vrmax(j),irlength(j)
iirlength = irlength(j)
kmax = min(4,iirlength)
allocate(tmparray(1:iirlength))
allocate(tmparray2(1:kmax))
allocate(a(1:iirlength,1:kmax))
allocate(at(1:kmax,1:iirlength))
allocate(ata(1:kmax,1:kmax))
allocate(atainv(1:kmax,1:kmax))
a = 0.d0
at = 0.d0
ata = 0.d0
atainv = 0.d0
do i = irmin(j),irmax(j)
coef = 1.d0
rnormalised = rmod(i)/vrmax(nzone)
do k = 1,kmax
a(i-irmin(j)+1,k) = coef
coef = coef * rnormalised
enddo
enddo
at = transpose(a)
ata = matmul(at,a)
print *, j
call inverseLU(kmax,ata,atainv)
! rho
tmparray = 0.d0
tmparray2 = 0.d0
tmparray(1:iirlength) = dnm(irmin(j):irmax(j))
tmparray2 = matmul(at,tmparray)
rrhoD(1:kmax,j) = matmul(atainv,tmparray2)
! vpv
tmparray = 0.d0
tmparray2 =0.d0
tmparray(1:iirlength) = vpv(irmin(j):irmax(j))
tmparray2 = matmul(at,tmparray)
vpvD(1:kmax,j) = matmul(atainv,tmparray2)
! vsv
tmparray = 0.d0
tmparray2 =0.d0
tmparray(1:iirlength) = vsv(irmin(j):irmax(j))
tmparray2 = matmul(at,tmparray)
vsvD(1:kmax,j) = matmul(atainv,tmparray2)
! vph
tmparray = 0.d0
tmparray2 =0.d0
tmparray(1:iirlength) = vph(irmin(j):irmax(j))
tmparray2 = matmul(at,tmparray)
vphD(1:kmax,j) = matmul(atainv,tmparray2)
! vsh
tmparray = 0.d0
tmparray2 =0.d0
tmparray(1:iirlength) = vsh(irmin(j):irmax(j))
tmparray2 = matmul(at,tmparray)
vshD(1:kmax,j) = matmul(atainv,tmparray2)
deallocate(a,at,ata,atainv,tmparray,tmparray2)
enddo
call writepsvmodel
call writeshmodel
end program modelConverter